Organic semiconductors can be designed and constructed in π‐stacked structures instead of
the conventional π‐conjugated structures. Through‐space interaction (TSI) occurs in π …

Over the past two decades, various techniques for fabricating nano-gapped electrodes have
emerged, promoting rapid development in the field of single-molecule electronics, on both …

Creating functional electrical circuits using individual or ensemble molecules, often termed
as “molecular-scale electronics”, not only meets the increasing technical demands of the …

Monitoring and manipulating the physical and chemical behavior of single molecules is an
important development direction of molecular electronics that aids in understanding the …

Single-molecule junctions—devices in which a single molecule is electrically connected by
two electrodes—enable the study of a broad range of quantum-transport phenomena even …

The field of single-molecule electronics harnesses expertise from engineering, physics and
chemistry to realize circuit elements at the limit of miniaturization; it is a subfield of …

We review charge transport across molecular monolayers, which is central to molecular
electronics (MolEl), using large-area junctions (NmJ). We strive to provide a wide conceptual …

The concept of using single molecules as key building blocks for logic gates, diodes and
transistors to perform basic functions of digital electronic devices at the molecular scale has …

As conventional silicon-based transistors are fast approaching the physical limit, it is
essential to seek alternative candidates, which should be compatible with or even replace …

One goal of the second quantum revolution is developing an approach to transmit coherent
quantum information across the world, forming the basis of the quantum Internet. Achieving …